Linear active disturbance rejection control with linear quadratic regulator for Stewart platform in active wave compensation system

被引：0
作者：
Wang, Wenxuan [1 ,2 ,3 ]
Ning, Yinghao [4 ]
Zhang, Yang [1 ,2 ,3 ]
Xu, Peng [1 ,2 ,3 ]
Li, Bing [1 ,2 ,3 ]
机构：
[1] Harbin Inst Technol, Guangdong Prov Key Lab Intelligent Morphing Mech &, Shenzhen 518055, Peoples R China
[2] Harbin Inst Technol, Key Univ Lab Mech & Machine Theory & Intelligent U, Shenzhen 518055, Peoples R China
[3] Harbin Inst Technol, Sch Mech Engn & Automat, Shenzhen 518055, Peoples R China
[4] Zhengzhou Tobacco Res Inst, Zhengzhou 450015, Peoples R China
来源：
APPLIED OCEAN RESEARCH | 2025年 / 156卷
关键词：
Wave-include motion; Active motion compensation; Shipborne Stewart platform; Line active disturbance rejection control; Disturbance estimation; KINEMATICS;
D O I：
10.1016/j.apor.2025.104469
中图分类号：
P75 [海洋工程];
学科分类号：
0814 ; 081505 ; 0824 ; 082401 ;
摘要：
Offshore operations are vulnerable to the vessel motions caused by waves in harsh sea conditions. To compensate for the wave-included motions of the vessel, the shipborne Stewart platform with a gangway mechanism offers an effective means to enhance operator safety and extend the window period for offshore activities. The gangway endures off-center heavy loads and low-frequency vibrations, while the shipborne Stewart platform faces timevarying ship motions caused by waves. In addition, there is a strong motion coupling between the limbs of the Stewart platform. These challenges pose a formidable task in attaining precise control accuracy for wave compensation. In this study, a linear active disturbance rejection control with a linear quadratic regulator is proposed for the shipborne Stewart platform. The original proportional-derivative gain is substituted with a linear quadratic regulator (LQR), thereby effectively addressing the previous challenge of channel parameter tuning. Additionally, a linear extended state observer is devised to enhance system robustness by estimating and counteracting overall disturbance. The proposed controller is designed based on joint-space and its stability is verified using the Lyapunov theory. Simulation results validate that the proposed controller demonstrates superior performance in terms of compensation accuracy, anti-disturbance capability, and decoupling effect compared to the PI and LQR controllers.
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页数：23
相关论文
共 49 条
  • [1] Angeles J., Fundamentals of Robotic Mechanical Systems: Theory, Methods, and Algorithms, (2003)
  • [2] Cai Y., Zheng S., Liu W., Qu Z., Han J., Model analysis and modified control method of ship-mounted Stewart platforms for wave compensation, IEEe Access., 9, pp. 4505-4517, (2021)
  • [3] Cai Y.F., Zheng S.T., Liu W.T., Qu Z.Y., Zhu J.Y., Han J.W., Sliding-mode control of ship-mounted Stewart platforms for wave compensation using velocity feedforward, Ocean Eng., 236, (2021)
  • [4] Chen W., Wang S., Li J., Lin C., Yang Y., Ren A., Li W., Zhao X., Zhang W., Guo W., Gao F., An ADRC-based triple-loop control strategy of ship-mounted Stewart platform for six-DOF wave compensation, Mech. Mach. Theory, 184, (2023)
  • [5] Chen W., Wen Y., Tong X., Lin C., Li J., Wang S., Xie W., Mao L., Zhao X., Zhang W., Gao F., Dynamics modeling and modal space control strategy of ship-Borne Stewart platform for wave compensation, J. Mech. Robot., 15, 4, (2023)
  • [6] Dabiri A., Sabet S., Poursina M., Armstrong D.G., Nikravesh P.E., An optimal Stewart platform for lower extremity robotic rehabilitation, 2017 American Control Conference (ACC), pp. 5294-5299, (2017)
  • [7] Darby M.L., Nikolaou M., MPC: current practice and challenges, Control Eng. Pract., 20, 4, pp. 328-342, (2012)
  • [8] Eren U., Prach A., Kocer B.B., Rakovic S.V., Kayacan E., Acikmese B., Model predictive control in aerospace systems: current State and opportunities, J. Guidance, Control Dyn., 40, 7, pp. 1541-1566, (2017)
  • [9] Eftekhari M., Eftekhari M., Karimpour H., Neuro-fuzzy adaptive control of a revolute stewart platform carrying payloads of unknown inertia, Robotica, 33, 9, pp. 2001-2024, (2014)
  • [10] Fossen T.I., Handbook of Marine Craft Hydrodynamics and Motion Control, (2011)
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